IMPROVING THE EFFICIENCY OF HIGH-SPEED MILLING OF THIN-WALLED ELEMENTS OF PARTS OF COMPLEX GEOMETRIC SHAPES

Abstract

Thin-walled elements of complex geometric shapes are widely used in the aerospace and other industries. They are obtained by various methods of machining using modern numerically controlled machines. The fundamental factors for manufacturing of parts are the productivity and machining quality. The subject matter of the article is the vibration during high-speed milling of thin-walled elements of parts of complex geometric shapes. The aim of the article is to determine the possibility of increasing the efficiency of high-speed milling of thin-walled parts by finding vibration-proof processing conditions. To achieve the goal, the following tasks have been set and implemented: considering the features of high-speed milling of thin-walled elements of parts with complex geometric shapes, developing a technique for investigating the milling process, and identifying stable machining conditions for high-speed milling of thin-walled components. The methods of oscillation fixation during machining and statistical analysis of experimentally obtained results are used. The following results are obtained: the design of the experimental bench is suggested to study the process of milling thin-walled elements of parts, the technique of obtaining a quantitative characteristic of the milling conditions, which is based on determining the position of a part at the moment when a milling tooth is cutting into it is offered, and the stable machining conditions for high-speed milling of thin-walled elements of parts are determined. Conclusions. The decisive role of the spindle rotational velocity in achieving a low vibration level has been experimentally proven, under the conditions of high-speed milling in a vibration-resistant range of spindle velocities both the radial depth and the feed can be increased without losses in the quality of machining.

Authors and Affiliations

Anton Germashev, Victor Logominov, Yelena Kozlova, Vladimir Krishtal

Keywords

Related Articles

MODEL OF TIME MANAGEMENT IN THE SYSTEM OF STRATEGIC PROJECT MANAGEMENT

The subject of research of the article is the process of choosing ways to improve time management as one of the major resources of the projects with strategic project management positions. The goal - to build a model of...

DEVELOPING TECHNOLOGIES ON THE BASIS OF KNOWLEDGE TRANSFORMATION CHAINS

The subject matter of the article is the theoretical and applied aspects of technology development on the basis of knowledge transformation chains. The current scientific and technological progress of the leading countri...

DEVELOPING THE MECHANISM FOR SYSTEMATIZING THE COMPONENTS OF THE CONTENT OF THE CONSTRUCTION PROJECTS PORTFOLIO

The subject matter of the article is the process of planning the content of the portfolio of construction projects. The goal of the study is to identify the relations between the main elements of the content of construct...

PARAMETRIC SYNTHESIS OF MODELS FOR MULTICRITERIAL ESTIMATION OF TECHNOLOGICAL SYSTEMS

The subject matter of the article is the problem of multicriteria estimation of the properties of technological systems (TS) in the process of their structural-parametric optimization. The goal of the study is to increas...

THE ADVANCED DESIGN AND TECHNOLOGICAL SOLUTIONS OF ULTRALIGHT DETECTOR MODULES FOR PHYSICAL EXPERIMENTS

One of the main tasks of improving the informative value of the experiments of high energy physics is to reduce the mass of matter in the detection volume to ensure reducing a probable impact on the parameters of particl...

Download PDF file
  • EP ID EP280043
  • DOI 10.30837/2522-9818.2017.2.023
  • Views 73
  • Downloads 0

How To Cite

Anton Germashev, Victor Logominov, Yelena Kozlova, Vladimir Krishtal (2017). IMPROVING THE EFFICIENCY OF HIGH-SPEED MILLING OF THIN-WALLED ELEMENTS OF PARTS OF COMPLEX GEOMETRIC SHAPES. Сучасний стан наукових досліджень та технологій в промисловості, 2(2), 23-28. https://europub.co.uk/articles/-A-280043